1 | !$Id: mksflx.F90 163 2010-02-22 15:41:45Z acosce $ |
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2 | !! ========================================================================= |
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3 | !! INCA - INteraction with Chemistry and Aerosols |
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4 | !! |
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5 | !! Copyright Laboratoire des Sciences du Climat et de l'Environnement (LSCE) |
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6 | !! Unite mixte CEA-CNRS-UVSQ |
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7 | !! |
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8 | !! Contributors to this INCA subroutine: |
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9 | !! |
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10 | !! Didier Hauglustaine, LSCE, hauglustaine@cea.fr |
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11 | !! Michael Schulz, LSCE, Michael.Schulz@cea.fr |
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12 | !! Christiane Textor, LSCE |
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13 | !! |
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14 | !! Anne Cozic, LSCE, anne.cozic@cea.fr |
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15 | !! Yann Meurdesoif, LSCE, yann.meurdesoif@cea.fr |
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16 | !! |
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17 | !! This software is a computer program whose purpose is to simulate the |
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18 | !! atmospheric gas phase and aerosol composition. The model is designed to be |
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19 | !! used within a transport model or a general circulation model. This version |
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20 | !! of INCA was designed to be coupled to the LMDz GCM. LMDz-INCA accounts |
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21 | !! for emissions, transport (resolved and sub-grid scale), photochemical |
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22 | !! transformations, and scavenging (dry deposition and washout) of chemical |
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23 | !! species and aerosols interactively in the GCM. Several versions of the INCA |
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24 | !! model are currently used depending on the envisaged applications with the |
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25 | !! chemistry-climate model. |
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26 | !! |
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27 | !! This software is governed by the CeCILL license under French law and |
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28 | !! abiding by the rules of distribution of free software. You can use, |
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29 | !! modify and/ or redistribute the software under the terms of the CeCILL |
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30 | !! license as circulated by CEA, CNRS and INRIA at the following URL |
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31 | !! "http://www.cecill.info". |
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32 | !! |
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33 | !! As a counterpart to the access to the source code and rights to copy, |
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34 | !! modify and redistribute granted by the license, users are provided only |
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35 | !! with a limited warranty and the software's author, the holder of the |
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36 | !! economic rights, and the successive licensors have only limited |
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37 | !! liability. |
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38 | !! |
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39 | !! In this respect, the user's attention is drawn to the risks associated |
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40 | !! with loading, using, modifying and/or developing or reproducing the |
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41 | !! software by the user in light of its specific status of free software, |
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42 | !! that may mean that it is complicated to manipulate, and that also |
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43 | !! therefore means that it is reserved for developers and experienced |
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44 | !! professionals having in-depth computer knowledge. Users are therefore |
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45 | !! encouraged to load and test the software's suitability as regards their |
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46 | !! requirements in conditions enabling the security of their systems and/or |
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47 | !! data to be ensured and, more generally, to use and operate it in the |
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48 | !! same conditions as regards security. |
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49 | !! |
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50 | !! The fact that you are presently reading this means that you have had |
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51 | !! knowledge of the CeCILL license and that you accept its terms. |
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52 | !! ========================================================================= |
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53 | |
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54 | #include <inca_define.h> |
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55 | |
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56 | SUBROUTINE MKSFLX_P2P(calday, oro, lat, lon, area, & |
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57 | loc_angle, polar_night, polar_day, sunon, sunoff, & |
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58 | u, v, paprs, pmid, cdragh, cdragm, temp, sh, & |
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59 | ftsol, ts, pctsrf ) |
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60 | |
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61 | !-------------------------------------------------------- |
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62 | ! ... Form the surface fluxes for this time slice |
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63 | ! Didier Hauglustaine, IPSL, 2000, 2018 |
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64 | !-------------------------------------------------------- |
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65 | |
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66 | USE RADON_SRF_FLX |
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67 | USE SRF_FLUX_INT |
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68 | USE SPECIES_NAMES |
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69 | USE SFLX |
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70 | USE CONST_MOD, ONLY : pi |
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71 | USE SURF_CHEM_MOD |
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72 | USE CONST_LMDZ |
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73 | USE INCA_DIM |
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74 | USE MOD_INCA_PARA |
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75 | USE CHEM_CONS, ONLY : dayspy |
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76 | USE TIME_MOD_INCA, ONLY : one_year,month_len,month,day |
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77 | USE AEROSOL_METEO, ONLY : zheight |
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78 | USE PARAM_CHEM |
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79 | #ifdef AER |
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80 | USE AEROSOL_MOD, ONLY : srcsigmaln,rop,asmode |
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81 | #endif |
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82 | #ifdef GES |
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83 | USE CARBONATOR |
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84 | #endif |
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85 | |
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86 | |
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87 | IMPLICIT NONE |
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88 | |
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89 | !-------------------------------------------------------- |
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90 | ! ... Dummy arguments |
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91 | !-------------------------------------------------------- |
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92 | REAL, INTENT(in) :: oro(PLON) |
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93 | REAL, INTENT(in) :: area(PLON) |
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94 | REAL, INTENT(in) :: lat(PLON) |
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95 | REAL, INTENT(in) :: lon(PLON) |
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96 | REAL, INTENT(in) :: calday !time of year in days |
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97 | ! variables used in nightingale |
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98 | REAL, INTENT(in) :: u(PLON,PLEV),v(PLON,PLEV) |
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99 | REAL, INTENT(in) :: paprs(PLON,PLEV+1) |
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100 | REAL, INTENT(in) :: pmid(PLON,PLEV) |
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101 | REAL, INTENT(in) :: cdragh(PLON), cdragm(PLON) |
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102 | REAL, INTENT(in) :: temp(PLON,PLEV) |
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103 | REAL, INTENT(in) :: sh(PLON,PLEV) |
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104 | REAL, INTENT(in) :: ftsol(PLON,nbsrf) |
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105 | REAL, INTENT(in) :: ts(PLON) |
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106 | REAL, INTENT(in) :: pctsrf(PLON,nbsrf) |
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107 | |
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108 | !-------------------------------------------------------- |
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109 | ! ... Dummy arguments needed to calculate diurnal |
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110 | ! variation of isoprene and monoterpenes |
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111 | ! added by Gerd Folberth, LSCE, 2001. |
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112 | !-------------------------------------------------------- |
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113 | REAL, INTENT(in) :: loc_angle(PLON) ! "local" time angle |
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114 | LOGICAL, INTENT(in) :: polar_day(PLON) ! continuous daylight flag |
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115 | LOGICAL, INTENT(in) :: polar_night(PLON) ! continuous night flag |
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116 | REAL, INTENT(in) :: sunon(PLON) ! sunrise angle in radians |
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117 | REAL, INTENT(in) :: sunoff(PLON) ! sunset angle in radians |
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118 | |
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119 | !-------------------------------------------------------- |
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120 | ! ... Local variables |
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121 | !-------------------------------------------------------- |
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122 | REAL :: econc_dms(PLON) |
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123 | INTEGER :: i, m, last, next |
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124 | REAL :: dels |
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125 | REAL :: sflux1, sflux2 |
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126 | REAL :: sflux1_loc(PLON), sflux2_loc(PLON) |
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127 | REAL :: sflux1_glo(nbp_glo), sflux2_glo(nbp_glo) |
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128 | REAL :: total_flux |
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129 | REAL, PARAMETER :: secpyr = dayspy * 8.64e4 |
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130 | |
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131 | LOGICAL, SAVE :: entered = .FALSE. |
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132 | !$OMP THREADPRIVATE(entered) |
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133 | |
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134 | |
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135 | |
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136 | #ifdef NMHC |
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137 | !-------------------------------------------------------- |
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138 | ! ... Local variables for calculating diurnal variations |
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139 | ! added by Gerd Folberth, LSCE, 2001. |
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140 | !-------------------------------------------------------- |
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141 | REAL :: factor |
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142 | REAL :: dayfrac ! fraction of day in light |
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143 | REAL :: iso_off ! time isoprene flux turns off |
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144 | REAL :: iso_on ! time isoprene flux turns on |
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145 | #endif |
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146 | |
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147 | #ifdef AER |
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148 | ! source mass median diameter [m] |
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149 | REAL :: srcmmd_id_ASBCM = 0.14e-6 |
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150 | REAL :: srcmmd_id_ASPOMM = 0.34e-6 |
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151 | REAL :: fdistBC ! Number/Mass factor to compute number flux |
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152 | REAL :: fdistPOM ! Number/Mass factor to compute number flux |
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153 | REAL :: fdistSO4 |
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154 | REAL :: srcmmd_id_ASSO4M = 0.3e-6 |
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155 | #endif |
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156 | |
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157 | INTEGER :: ll |
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158 | REAL :: fracthh ! single value instead of array(4) |
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159 | REAL :: zalt |
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160 | REAL, PARAMETER :: emi_height = 2000. |
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161 | |
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162 | LOGICAL, SAVE :: first = .TRUE. |
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163 | !$OMP THREADPRIVATE(first) |
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164 | |
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165 | IF (first) THEN |
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166 | |
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167 | IF (CoupSurfAtm) THEN |
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168 | ! allocation des eflux_notfromveg et veg dans le cas du couplage avec orchidee |
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169 | ALLOCATE(eflux_notfromveg(PLON,nb_flux)) |
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170 | ALLOCATE(eflux_veg(PLON,nb_flux)) |
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171 | eflux_notfromveg(:,:) = 0. |
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172 | eflux_veg(:,:) = 0. |
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173 | ENDIF |
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174 | |
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175 | first = .FALSE. |
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176 | ENDIF |
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177 | |
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178 | |
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179 | |
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180 | !-------------------------------------------------------- |
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181 | ! ... Setup the time interpolation |
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182 | ! Note: 365 day year inconsistent with LMDz (360 days) !!! |
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183 | !-------------------------------------------------------- |
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184 | |
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185 | SELECT CASE(emi_interp_time) |
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186 | CASE(0) !--no time interpolation at all |
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187 | dels = 0. |
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188 | last = month ! Added ThL: in this case, last = current month and next = next month |
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189 | IF ( month == 12 ) THEN ! (considering months as 1st to 30th) |
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190 | next = 1 |
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191 | ELSE |
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192 | next = month + 1 |
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193 | ENDIF |
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194 | |
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195 | CASE(1) !--default time interpolation |
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196 | IF ( calday < days(1) ) THEN |
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197 | next = 1 |
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198 | last = 12 |
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199 | dels = REAL(365. + calday - days(12)) & |
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200 | / REAL(365. + days(1) - days(12)) |
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201 | ELSE IF ( calday >= days(12) ) THEN |
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202 | next = 1 |
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203 | last = 12 |
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204 | dels = REAL(calday - days(12)) & |
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205 | / REAL(365. + days(1) - days(12)) |
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206 | ELSE |
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207 | DO m = 11,1,-1 |
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208 | IF ( calday >= days(m) ) THEN |
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209 | EXIT |
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210 | ENDIF |
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211 | ENDDO |
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212 | last = m |
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213 | next = m + 1 |
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214 | dels = REAL(calday - days(m)) / REAL(days(m+1) - days(m)) |
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215 | ENDIF |
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216 | dels = MAX( MIN( 1.,dels ),0. ) |
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217 | |
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218 | |
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219 | END SELECT |
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220 | |
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221 | !-------------------------------------------------------- |
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222 | ! ... Radon emission (called once) |
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223 | ! Note : radon global emission = 15 Kg/yr |
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224 | !-------------------------------------------------------- |
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225 | ! calcul eflux(rn222) at each time step because oro is modify at the end of the day |
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226 | ! IF( .NOT. entered ) THEN |
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227 | |
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228 | total_flux = 15. / secpyr ! kg/s |
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229 | baseflux = 0. |
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230 | sflux1 = 0. |
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231 | sflux2 = 0. |
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232 | sflux1_loc(:)=0. |
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233 | sflux2_loc(:)=0. |
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234 | |
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235 | DO i = 1, PLON |
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236 | IF( lat(i) < 70. .AND. lat(i) > -60. ) THEN |
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237 | sflux1_loc(i) = 1.*baseflux*area(i)*(1.-oro(i)) |
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238 | IF ( lat(i) >= 60. ) THEN |
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239 | IF (lon(i) < -20. .AND. lon(i) > -70.) THEN |
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240 | sflux2_loc(i) = 0.5*baseflux*oro(i)*area(i) |
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241 | ELSE |
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242 | sflux2_loc(i) = 0.5*oro(i)*area(i) |
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243 | ENDIF |
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244 | ELSE |
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245 | sflux2_loc(i) = 1.0*oro(i)*area(i) |
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246 | ENDIF |
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247 | ENDIF |
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248 | ENDDO |
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249 | |
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250 | CALL gather(sflux1_loc,sflux1_glo) |
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251 | CALL gather(sflux2_loc,sflux2_glo) |
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252 | |
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253 | !$OMP MASTER |
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254 | IF (is_mpi_root) THEN |
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255 | DO i = 1, nbp_glo |
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256 | sflux1=sflux1+sflux1_glo(i) |
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257 | sflux2=sflux2+sflux2_glo(i) |
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258 | ENDDO |
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259 | landflux = (total_flux - sflux1) / sflux2 |
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260 | ENDIF |
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261 | !$OMP END MASTER |
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262 | CALL bcast(landflux) |
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263 | |
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264 | DO i = 1,PLON |
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265 | IF (lat(i) >= 70. .OR. lat(i) <= -60.) THEN |
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266 | eflux(i,id_Rn222) = baseflux |
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267 | ELSE |
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268 | IF (lat(i) >= 60.) THEN |
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269 | IF (lon(i) < -20. .AND. lon(i) > -70.) THEN |
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270 | eflux(i,id_Rn222) = 0.5 * baseflux * oro(i) & |
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271 | + baseflux * (1.-oro(i)) |
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272 | ELSE |
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273 | eflux(i,id_Rn222) = 0.5 * landflux * oro(i) & |
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274 | + baseflux * (1.-oro(i)) |
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275 | ENDIF |
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276 | ELSE |
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277 | eflux(i,id_Rn222) = 1.0 * landflux * oro(i) & |
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278 | + baseflux * (1.-oro(i)) |
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279 | ENDIF |
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280 | ENDIF |
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281 | ENDDO |
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282 | |
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283 | ! entered = .TRUE. |
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284 | ! ENDIF |
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285 | |
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286 | |
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287 | !-------------------------------------------------------- |
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288 | ! ... Set non-zero fluxes |
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289 | !-------------------------------------------------------- |
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290 | #ifdef NMHC |
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291 | flx_mcf = flx_mcf_ant + flx_mcf_nat |
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292 | eflux(:,id_MCF) = flx_mcf(:,last) + dels * (flx_mcf(:,next) - flx_mcf(:,last)) |
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293 | |
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294 | flx_n2o = flx_n2o_ant + flx_n2o_nat |
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295 | eflux(:,id_N2O) = flx_n2o(:,last) + dels * (flx_n2o(:,next) - flx_n2o(:,last)) |
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296 | |
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297 | flx_ch4 = flx_ch4_ant + flx_ch4_nat |
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298 | eflux(:,id_CH4) = flx_ch4(:,last) + dels * (flx_ch4(:,next) - flx_ch4(:,last)) |
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299 | |
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300 | flx_co = flx_co_ant + flx_co_nat |
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301 | eflux(:,id_CO) = flx_co(:,last) + dels * (flx_co(:,next) - flx_co(:,last)) |
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302 | |
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303 | flx_h2 = flx_h2_ant + flx_h2_nat |
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304 | eflux(:,id_H2) = flx_h2(:,last) + dels * (flx_h2(:,next) - flx_h2(:,last)) |
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305 | |
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306 | flx_no = flx_no_ant + flx_no_nat |
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307 | eflux(:,id_NO) = flx_no(:,last) + dels * (flx_no(:,next) - flx_no(:,last)) |
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308 | |
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309 | flx_c2h5oh = flx_c2h5oh_ant + flx_c2h5oh_nat |
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310 | eflux(:,id_C2H5OH) = flx_c2h5oh(:,last) + dels * (flx_c2h5oh(:,next) - flx_c2h5oh(:,last)) |
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311 | |
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312 | flx_alkan = flx_alkan_ant + flx_alkan_nat |
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313 | eflux(:,id_ALKAN) = flx_alkan(:,last)+ dels * (flx_alkan(:,next) - flx_alkan(:,last)) |
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314 | |
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315 | flx_arom = flx_arom_ant + flx_arom_nat |
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316 | eflux(:,id_AROM) = flx_arom(:,last) + dels * (flx_arom(:,next) - flx_arom(:,last)) |
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317 | |
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318 | flx_mek = flx_mek_ant + flx_mek_nat |
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319 | eflux(:,id_MEK) = flx_mek(:,last) + dels * (flx_mek(:,next) - flx_mek(:,last)) |
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320 | |
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321 | flx_mvk = flx_mvk_ant + flx_mvk_nat |
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322 | eflux(:,id_MVK) = flx_mvk(:,last) + dels * (flx_mvk(:,next) - flx_mvk(:,last)) |
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323 | |
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324 | flx_c2h6 = flx_c2h6_ant + flx_c2h6_nat |
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325 | eflux(:,id_C2H6) = flx_c2h6(:,last) + dels * (flx_c2h6(:,next) - flx_c2h6(:,last)) |
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326 | |
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327 | flx_c3h8 = flx_c3h8_ant + flx_c3h8_nat |
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328 | eflux(:,id_C3H8) = flx_c3h8(:,last) + dels * (flx_c3h8(:,next) - flx_c3h8(:,last)) |
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329 | |
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330 | flx_c2h4 = flx_c2h4_ant + flx_c2h4_nat |
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331 | eflux(:,id_C2H4) = flx_c2h4(:,last) + dels * (flx_c2h4(:,next) - flx_c2h4(:,last)) |
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332 | |
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333 | flx_c3h6 = flx_c3h6_ant + flx_c3h6_nat |
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334 | eflux(:,id_C3H6) = flx_c3h6(:,last) + dels * (flx_c3h6(:,next) - flx_c3h6(:,last)) |
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335 | |
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336 | flx_c2h2 = flx_c2h2_ant + flx_c2h2_nat |
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337 | eflux(:,id_C2H2) = flx_c2h2(:,last) + dels * (flx_c2h2(:,next) - flx_c2h2(:,last)) |
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338 | |
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339 | flx_alken = flx_alken_ant + flx_alken_nat |
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340 | eflux(:,id_ALKEN) = flx_alken(:,last) + dels * (flx_alken(:,next) - flx_alken(:,last)) |
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341 | |
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342 | |
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343 | IF (id_Orch_iso .EQ. 0) THEN |
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344 | flx_isop = flx_isop_ant + flx_isop_nat |
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345 | eflux(:,id_ISOP) = flx_isop(:,last) + dels * (flx_isop(:,next) - flx_isop(:,last)) |
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346 | ELSE |
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347 | ! dans ce cas la eflux(iso) = flux_no_veg + flux_orchidee |
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348 | ! le flux orchidee sera ajoute apres l'ajustement diurne du flux ocean |
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349 | flx_isop_no_veg = flx_isop_ant + flx_isop_nat |
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350 | eflux_notfromveg(:,id_Orch_iso) = flx_isop_no_veg(:,last) + dels * (flx_isop_no_veg(:,next) - flx_isop_no_veg(:,last)) |
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351 | ENDIF |
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352 | |
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353 | IF (id_Orch_apin .EQ. 0) THEN |
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354 | flx_apin = flx_apin_ant + flx_apin_nat |
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355 | eflux(:,id_APIN) = flx_apin(:,last) + dels * (flx_apin(:,next) - flx_apin(:,last)) |
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356 | ELSE |
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357 | flx_apin_no_veg = flx_apin_ant + flx_apin_nat |
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358 | eflux_notfromveg(:,id_Orch_apin) = flx_apin_no_veg(:,last) + dels * (flx_apin_no_veg(:,next) - flx_apin_no_veg(:,last)) |
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359 | ENDIF |
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360 | |
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361 | IF (id_Orch_ch3oh .EQ. 0 ) THEN |
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362 | flx_ch3oh = flx_ch3oh_ant + flx_ch3oh_nat |
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363 | eflux(:,id_CH3OH) = flx_ch3oh(:,last)+ dels * (flx_ch3oh(:,next) - flx_ch3oh(:,last)) |
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364 | ELSE |
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365 | flx_ch3oh_no_veg = flx_ch3oh_ant + flx_ch3oh_nat |
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366 | eflux_notfromveg(:,id_Orch_ch3oh) = flx_ch3oh_no_veg(:,last)+ dels * (flx_ch3oh_no_veg(:,next) - flx_ch3oh_no_veg(:,last)) |
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367 | ENDIF |
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368 | |
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369 | IF (id_Orch_formal .EQ. 0) THEN |
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370 | flx_ch2o = flx_ch2o_ant + flx_ch2o_nat |
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371 | eflux(:,id_CH2O) = flx_ch2o(:,last) + dels * (flx_ch2o(:,next) - flx_ch2o(:,last)) |
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372 | ELSE |
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373 | flx_ch2o_no_veg = flx_ch2o_ant + flx_ch2o_nat |
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374 | eflux_notfromveg(:,id_Orch_formal) = flx_ch2o_no_veg(:,last) + dels * (flx_ch2o_no_veg(:,next) - flx_ch2o_no_veg(:,last)) |
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375 | ENDIF |
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376 | |
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377 | IF (id_Orch_acetal .EQ. 0) THEN |
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378 | flx_ch3cho = flx_ch3cho_ant + flx_ch3cho_nat |
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379 | eflux(:,id_CH3CHO) = flx_ch3cho(:,last) + dels * (flx_ch3cho(:,next) - flx_ch3cho(:,last)) |
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380 | ELSE |
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381 | flx_ch3cho_no_veg = flx_ch3cho_ant + flx_ch3cho_nat |
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382 | eflux_notfromveg(:,id_Orch_acetal) = flx_ch3cho_no_veg(:,last)+ dels * (flx_ch3cho_no_veg(:,next) - flx_ch3cho_no_veg(:,last)) |
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383 | ENDIF |
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384 | |
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385 | IF (id_Orch_ch3coch3 .EQ. 0) THEN |
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386 | flx_ch3coch3 = flx_ch3coch3_ant + flx_ch3coch3_nat |
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387 | eflux(:,id_CH3COCH3)= flx_ch3coch3(:,last)+ dels * (flx_ch3coch3(:,next) - flx_ch3coch3(:,last)) |
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388 | ELSE |
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389 | flx_ch3coch3_no_veg = flx_ch3coch3_ant + flx_ch3coch3_nat |
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390 | eflux_notfromveg(:,id_Orch_ch3coch3) = flx_ch3coch3_no_veg(:,last)+ dels * (flx_ch3coch3_no_veg(:,next) - flx_ch3coch3_no_veg(:,last)) |
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391 | ENDIF |
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392 | |
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393 | IF ((id_Orch_acetic .EQ. 0) .OR. (id_Orch_formic .EQ. 0)) THEN |
---|
394 | flx_ch3cooh = flx_ch3cooh_ant + flx_ch3cooh_nat |
---|
395 | eflux(:,id_CH3COOH) = flx_ch3cooh(:,last) + dels * (flx_ch3cooh(:,next) - flx_ch3cooh(:,last)) |
---|
396 | ELSE |
---|
397 | flx_ch3cooh_no_veg = flx_ch3cooh_ant + flx_ch3cooh_nat |
---|
398 | eflux_notfromveg(:,id_Orch_acetic) = flx_ch3cooh_no_veg(:,last)+ dels * (flx_ch3cooh_no_veg(:,next) - flx_ch3cooh_no_veg(:,last)) |
---|
399 | eflux_notfromveg(:,id_Orch_formic) = eflux_notfromveg(:,id_Orch_acetic) |
---|
400 | ENDIF |
---|
401 | #endif |
---|
402 | |
---|
403 | #ifdef GES |
---|
404 | flx_mcf = flx_mcf_ant + flx_mcf_nat |
---|
405 | eflux(:,id_MCF) = flx_mcf(:,last) + dels * (flx_mcf(:,next) - flx_mcf(:,last)) |
---|
406 | |
---|
407 | flx_n2o = flx_n2o_ant + flx_n2o_nat |
---|
408 | eflux(:,id_N2O) = flx_n2o(:,last) + dels * (flx_n2o(:,next) - flx_n2o(:,last)) |
---|
409 | |
---|
410 | flx_ch4 = flx_ch4_ant + flx_ch4_nat |
---|
411 | eflux(:,id_CH4) = flx_ch4(:,last) + dels * (flx_ch4(:,next) - flx_ch4(:,last)) |
---|
412 | |
---|
413 | flx_co = flx_co_ant + flx_co_nat |
---|
414 | eflux(:,id_CO) = flx_co(:,last) + dels * (flx_co(:,next) - flx_co(:,last)) |
---|
415 | |
---|
416 | ! champ calcule dans carbonator - independant de sflx*.nc |
---|
417 | eflux(:,id_CO2BIH) = eflux_CO2(:,id_co2bih_loc)/3600. |
---|
418 | #endif |
---|
419 | |
---|
420 | |
---|
421 | |
---|
422 | #ifndef DUSS |
---|
423 | #ifdef AER |
---|
424 | |
---|
425 | fdistBC= 1./pi*6./rop(id_ASBCM)/srcmmd_id_ASBCM**3 *EXP(4.5*srcsigmaln(asmode)**2) |
---|
426 | fdistPOM=1./pi*6./rop(id_ASPOMM)/srcmmd_id_ASPOMM**3 *EXP(4.5*srcsigmaln(asmode)**2) |
---|
427 | fdistSO4= 1./pi*6./rop(id_ASSO4M) /srcmmd_id_ASSO4M**3 *EXP(4.5*srcsigmaln(asmode)**2) |
---|
428 | |
---|
429 | flx_so2 = flx_so2_ant + flx_so2_nat |
---|
430 | eflux(:,id_SO2) = flx_so2(:,last) + dels * (flx_so2(:,next) - flx_so2(:,last)) |
---|
431 | |
---|
432 | flx_nh3 = flx_nh3_ant + flx_nh3_nat |
---|
433 | eflux(:,id_NH3) = flx_nh3(:,last) + dels * (flx_nh3(:,next) - flx_nh3(:,last)) |
---|
434 | |
---|
435 | flx_h2s = flx_h2s_ant + flx_h2s_nat |
---|
436 | eflux(:,id_H2S) = flx_h2s(:,last) + dels * (flx_h2s(:,next) - flx_h2s(:,last)) |
---|
437 | |
---|
438 | |
---|
439 | !****************source function |
---|
440 | !--------unit of flxBCM are cgs: g cm**-2 s-1 |
---|
441 | ! computation of flux |
---|
442 | ! Injection in Low Height |
---|
443 | ! 20% of the BC is hydrophilic upon emission and 80% is hydrophobic |
---|
444 | ! 50% of POM is hydrophilic as it is emitted and 50% is hydrophobic |
---|
445 | |
---|
446 | flx_pom = flx_pom_ant + flx_pom_nat |
---|
447 | flx_bc = flx_bc_ant + flx_bc_nat |
---|
448 | |
---|
449 | eflux(:,id_AIBCM) = 0.8 * ( flx_bc(:,last) + dels * (flx_bc(:,next) - flx_bc(:,last)) ) |
---|
450 | eflux(:,id_AIPOMM) = 0.5 * ( flx_pom(:,last) + dels * (flx_pom(:,next)- flx_pom(:,last))) |
---|
451 | eflux(:,id_ASBCM) = 0.2 *( flx_bc(:,last) + dels * (flx_bc(:,next) - flx_bc(:,last)) ) |
---|
452 | eflux(:,id_ASPOMM) = 0.5 * ( flx_pom(:,last) + dels * (flx_pom(:,next)- flx_pom(:,last))) |
---|
453 | |
---|
454 | ! and for the number mixing ratio |
---|
455 | eflux(:,id_AIN) = eflux(:,id_AIN) + eflux(:,id_AIBCM) * fdistBC |
---|
456 | eflux(:,id_AIN) = eflux(:,id_AIN) + eflux(:,id_AIPOMM) * fdistPOM |
---|
457 | eflux(:,id_ASN) = eflux(:,id_ASN) + eflux(:,id_ASBCM) * fdistBC |
---|
458 | eflux(:,id_ASN) = eflux(:,id_ASN) + eflux(:,id_ASPOMM) * fdistPOM |
---|
459 | |
---|
460 | flx_asso4m = flx_so4_ant + flx_so4_nat |
---|
461 | eflux(:,id_ASSO4M) = flx_asso4m(:,last) + dels * (flx_asso4m(:,next) - flx_asso4m(:,last)) |
---|
462 | eflux(:,id_ASN) = eflux(:,id_ASN) + eflux(:,id_ASSO4M)*fdistSO4 |
---|
463 | |
---|
464 | !Emissions in altitude (biomass burning) are prepared here. |
---|
465 | !For AERONLY they are injected in bcpomsource.F90 for aerosols, NO2, NH3, and SO2. |
---|
466 | !For NMHC-AER they are injected in SETEXT_BBG for all tracers. |
---|
467 | |
---|
468 | #ifdef AERONLY |
---|
469 | flx_no = flx_no_ant + flx_no_nat |
---|
470 | eflux(:,id_NO2) = 46./30. * (flx_no(:,last) + dels * (flx_no(:,next) - flx_no(:,last))) |
---|
471 | |
---|
472 | ! bc/pom/so2 emission at altitude from biomass burning aerosols |
---|
473 | DO i = 1, PLON |
---|
474 | zalt = 0.0 |
---|
475 | DO ll = 1, PLEV |
---|
476 | |
---|
477 | fracthh = (MIN(zalt+zheight(i,ll),emi_height)-MIN(zalt,emi_height))/emi_height |
---|
478 | zalt = zalt + zheight(i,ll) |
---|
479 | |
---|
480 | eflux_alt(i,ll,id_AIBCM) = 0.8 * fracthh * (flx_bc_bbg(i,last) +dels*(flx_bc_bbg(i,next) -flx_bc_bbg(i,last))) |
---|
481 | eflux_alt(i,ll,id_AIPOMM) = 0.5 * fracthh * (flx_pom_bbg(i,last)+dels*(flx_pom_bbg(i,next)-flx_pom_bbg(i,last))) |
---|
482 | eflux_alt(i,ll,id_ASBCM) = 0.2 * fracthh * (flx_bc_bbg(i,last) +dels*(flx_bc_bbg(i,next) -flx_bc_bbg(i,last))) |
---|
483 | eflux_alt(i,ll,id_ASPOMM) = 0.5 * fracthh * (flx_pom_bbg(i,last)+dels*(flx_pom_bbg(i,next)-flx_pom_bbg(i,last))) |
---|
484 | |
---|
485 | eflux_alt(i,ll,id_AIN) = eflux_alt(i,ll,id_AIN)+ eflux_alt(i,ll,id_AIBCM) * fdistBC |
---|
486 | eflux_alt(i,ll,id_AIN) = eflux_alt(i,ll,id_AIN)+ eflux_alt(i,ll,id_AIPOMM) * fdistPOM |
---|
487 | eflux_alt(i,ll,id_ASN) = eflux_alt(i,ll,id_ASN)+ eflux_alt(i,ll,id_ASBCM) * fdistBC |
---|
488 | eflux_alt(i,ll,id_ASN) = eflux_alt(i,ll,id_ASN)+ eflux_alt(i,ll,id_ASPOMM) * fdistPOM |
---|
489 | |
---|
490 | ! Modif ThL: only anthro SO2 is emitted from ground; BBSO2 was injected in altitude (same for nh3 and no2) |
---|
491 | eflux_alt_so2(i,ll) = fracthh * (flx_so2_bbg(i,last) + dels*(flx_so2_bbg(i,next) - flx_so2_bbg(i,last))) |
---|
492 | eflux_alt_nh3(i,ll) = fracthh * (flx_nh3_bbg(i,last) + dels*(flx_nh3_bbg(i,next) - flx_nh3_bbg(i,last))) |
---|
493 | eflux_alt_no2(i,ll) = 46./30. * fracthh * (flx_no_bbg(i,last) + dels*(flx_no_bbg(i,next) - flx_no_bbg(i,last))) |
---|
494 | |
---|
495 | ENDDO |
---|
496 | ENDDO |
---|
497 | #else |
---|
498 | |
---|
499 | DO i = 1, PLON |
---|
500 | zalt = 0.0 |
---|
501 | DO ll = 1, PLEV |
---|
502 | |
---|
503 | fracthh = (MIN(zalt+zheight(i,ll),emi_height)-MIN(zalt,emi_height))/emi_height |
---|
504 | zalt = zalt + zheight(i,ll) |
---|
505 | |
---|
506 | aflux(i,ll,id_N2O) = fracthh * (flx_n2o_bbg(i,last) + dels*(flx_n2o_bbg(i,next) - flx_n2o_bbg(i,last))) |
---|
507 | aflux(i,ll,id_CH4) = fracthh * (flx_ch4_bbg(i,last) + dels*(flx_ch4_bbg(i,next) - flx_ch4_bbg(i,last))) |
---|
508 | aflux(i,ll,id_CO) = fracthh * (flx_co_bbg(i,last) + dels*(flx_co_bbg(i,next) - flx_co_bbg(i,last))) |
---|
509 | aflux(i,ll,id_H2) = fracthh * (flx_h2_bbg(i,last) + dels*(flx_h2_bbg(i,next) - flx_h2_bbg(i,last))) |
---|
510 | aflux(i,ll,id_NO) = fracthh * (flx_no_bbg(i,last) + dels*(flx_no_bbg(i,next) - flx_no_bbg(i,last))) |
---|
511 | aflux(i,ll,id_MCF) = fracthh * (flx_mcf_bbg(i,last) + dels*(flx_mcf_bbg(i,next) - flx_mcf_bbg(i,last))) |
---|
512 | aflux(i,ll,id_CH3OH) = fracthh * (flx_ch3oh_bbg(i,last) + dels*(flx_ch3oh_bbg(i,next) - flx_ch3oh_bbg(i,last))) |
---|
513 | aflux(i,ll,id_C2H5OH) = fracthh * (flx_c2h5oh_bbg(i,last) + dels*(flx_c2h5oh_bbg(i,next) - flx_c2h5oh_bbg(i,last))) |
---|
514 | aflux(i,ll,id_C2H6) = fracthh * (flx_c2h6_bbg(i,last) + dels*(flx_c2h6_bbg(i,next) - flx_c2h6_bbg(i,last))) |
---|
515 | aflux(i,ll,id_C3H8) = fracthh * (flx_c3h8_bbg(i,last) + dels*(flx_c3h8_bbg(i,next) - flx_c3h8_bbg(i,last))) |
---|
516 | aflux(i,ll,id_ALKAN) = fracthh * (flx_alkan_bbg(i,last) + dels*(flx_alkan_bbg(i,next) - flx_alkan_bbg(i,last))) |
---|
517 | aflux(i,ll,id_C2H4) = fracthh * (flx_c2h4_bbg(i,last) + dels*(flx_c2h4_bbg(i,next) - flx_c2h4_bbg(i,last))) |
---|
518 | aflux(i,ll,id_C3H6) = fracthh * (flx_c3h6_bbg(i,last) + dels*(flx_c3h6_bbg(i,next) - flx_c3h6_bbg(i,last))) |
---|
519 | aflux(i,ll,id_C2H2) = fracthh * (flx_c2h2_bbg(i,last) + dels*(flx_c2h2_bbg(i,next) - flx_c2h2_bbg(i,last))) |
---|
520 | aflux(i,ll,id_ALKEN) = fracthh * (flx_alken_bbg(i,last) + dels*(flx_alken_bbg(i,next) - flx_alken_bbg(i,last))) |
---|
521 | aflux(i,ll,id_AROM) = fracthh * (flx_arom_bbg(i,last) + dels*(flx_arom_bbg(i,next) - flx_arom_bbg(i,last))) |
---|
522 | aflux(i,ll,id_CH2O) = fracthh * (flx_ch2o_bbg(i,last) + dels*(flx_ch2o_bbg(i,next) - flx_ch2o_bbg(i,last))) |
---|
523 | aflux(i,ll,id_CH3CHO) = fracthh * (flx_ch3cho_bbg(i,last) + dels*(flx_ch3cho_bbg(i,next) - flx_ch3cho_bbg(i,last))) |
---|
524 | aflux(i,ll,id_CH3COCH3) = fracthh * (flx_ch3coch3_bbg(i,last) + dels*(flx_ch3coch3_bbg(i,next) - flx_ch3coch3_bbg(i,last))) |
---|
525 | aflux(i,ll,id_MEK) = fracthh * (flx_mek_bbg(i,last) + dels*(flx_mek_bbg(i,next) - flx_mek_bbg(i,last))) |
---|
526 | aflux(i,ll,id_MVK) = fracthh * (flx_mvk_bbg(i,last) + dels*(flx_mvk_bbg(i,next) - flx_mvk_bbg(i,last))) |
---|
527 | aflux(i,ll,id_CH3COOH) = fracthh * (flx_ch3cooh_bbg(i,last) + dels*(flx_ch3cooh_bbg(i,next) - flx_ch3cooh_bbg(i,last))) |
---|
528 | aflux(i,ll,id_ISOP) = fracthh * (flx_isop_bbg(i,last) + dels*(flx_isop_bbg(i,next) - flx_isop_bbg(i,last))) |
---|
529 | aflux(i,ll,id_APIN) = fracthh * (flx_apin_bbg(i,last) + dels*(flx_apin_bbg(i,next) - flx_apin_bbg(i,last))) |
---|
530 | aflux(i,ll,id_NH3) = fracthh * (flx_nh3_bbg(i,last) + dels*(flx_nh3_bbg(i,next) - flx_nh3_bbg(i,last))) |
---|
531 | aflux(i,ll,id_H2S) = fracthh * (flx_h2s_bbg(i,last) + dels*(flx_h2s_bbg(i,next) - flx_h2s_bbg(i,last))) |
---|
532 | aflux(i,ll,id_SO2) = fracthh * (flx_so2_bbg(i,last) + dels*(flx_so2_bbg(i,next) - flx_so2_bbg(i,last))) |
---|
533 | |
---|
534 | aflux(i,ll,id_AIBCM) = 0.8 * fracthh * (flx_bc_bbg(i,last) +dels*(flx_bc_bbg(i,next) -flx_bc_bbg(i,last))) |
---|
535 | aflux(i,ll,id_AIPOMM) = 0.5 * fracthh * (flx_pom_bbg(i,last)+dels*(flx_pom_bbg(i,next)-flx_pom_bbg(i,last))) |
---|
536 | aflux(i,ll,id_ASBCM) = 0.2 * fracthh * (flx_bc_bbg(i,last) +dels*(flx_bc_bbg(i,next) -flx_bc_bbg(i,last))) |
---|
537 | aflux(i,ll,id_ASPOMM) = 0.5 * fracthh * (flx_pom_bbg(i,last)+dels*(flx_pom_bbg(i,next)-flx_pom_bbg(i,last))) |
---|
538 | |
---|
539 | aflux(i,ll,id_AIN) = aflux(i,ll,id_AIN) + aflux(i,ll,id_AIBCM) * fdistBC |
---|
540 | aflux(i,ll,id_AIN) = aflux(i,ll,id_AIN) + aflux(i,ll,id_AIPOMM) * fdistPOM |
---|
541 | aflux(i,ll,id_ASN) = aflux(i,ll,id_ASN) + aflux(i,ll,id_ASBCM) * fdistBC |
---|
542 | aflux(i,ll,id_ASN) = aflux(i,ll,id_ASN) + aflux(i,ll,id_ASPOMM) * fdistPOM |
---|
543 | |
---|
544 | aflux(i,ll,id_ASSO4M) = fracthh * (flx_so4_bbg(i,last) + dels*(flx_so4_bbg(i,next) - flx_so4_bbg(i,last))) |
---|
545 | aflux(i,ll,id_ASN) = aflux(i,ll,id_ASN) + aflux(i,ll,id_ASSO4M)*fdistSO4 |
---|
546 | |
---|
547 | ENDDO |
---|
548 | ENDDO |
---|
549 | #endif |
---|
550 | |
---|
551 | |
---|
552 | econc_dms(:) = conc_dms(:,last) + dels * (conc_dms(:,next) - conc_dms(:,last)) |
---|
553 | |
---|
554 | #endif |
---|
555 | #endif |
---|
556 | |
---|
557 | |
---|
558 | #ifndef AER |
---|
559 | #ifdef NMHC |
---|
560 | |
---|
561 | |
---|
562 | DO i = 1, PLON |
---|
563 | zalt = 0.0 |
---|
564 | DO ll = 1, PLEV |
---|
565 | |
---|
566 | fracthh = (MIN(zalt+zheight(i,ll),emi_height)-MIN(zalt,emi_height))/emi_height |
---|
567 | zalt = zalt + zheight(i,ll) |
---|
568 | |
---|
569 | aflux(i,ll,id_CH4) = fracthh * (flx_ch4_bbg(i,last) + dels*(flx_ch4_bbg(i,next) - flx_ch4_bbg(i,last))) |
---|
570 | aflux(i,ll,id_CO) = fracthh * (flx_co_bbg(i,last) + dels*(flx_co_bbg(i,next) - flx_co_bbg(i,last))) |
---|
571 | aflux(i,ll,id_NO) = fracthh * (flx_no_bbg(i,last) + dels*(flx_no_bbg(i,next) - flx_no_bbg(i,last))) |
---|
572 | |
---|
573 | ENDDO |
---|
574 | ENDDO |
---|
575 | |
---|
576 | |
---|
577 | |
---|
578 | #endif |
---|
579 | #endif |
---|
580 | |
---|
581 | #ifdef NMHC |
---|
582 | !-------------------------------------------------------- |
---|
583 | ! ... calculate diurnal variation for biogenic NMHCs |
---|
584 | ! included in one loop to save calculation time |
---|
585 | ! Gerd Folberth, LSCE, for LMDZ/INCA, 2001. |
---|
586 | !-------------------------------------------------------- |
---|
587 | |
---|
588 | !-------------------------------------------------------- |
---|
589 | ! ... loop starts here |
---|
590 | ! Gerd Folberth, LSCE, for LMDZ/INCA, 2001. |
---|
591 | !-------------------------------------------------------- |
---|
592 | DO i = 1, PLON |
---|
593 | |
---|
594 | !-------------------------------------------------------- |
---|
595 | ! ... Adjust isoprene for diurnal variation |
---|
596 | ! Modified by Gerd Folberth, LSCE, for LMDZ/INCA, 2001. |
---|
597 | !-------------------------------------------------------- |
---|
598 | IF( polar_night(i) ) THEN |
---|
599 | CYCLE |
---|
600 | ELSE |
---|
601 | IF( polar_day(i) ) THEN |
---|
602 | iso_off = 0.8 * pi |
---|
603 | iso_on = 1.2 * pi |
---|
604 | ELSE |
---|
605 | iso_off = 0.8 * sunoff(i) |
---|
606 | iso_on = (2. * pi) - iso_off |
---|
607 | ENDIF |
---|
608 | IF ( (loc_angle(i) >= iso_off) .AND. (loc_angle(i) <= iso_on) ) THEN |
---|
609 | IF (id_Orch_iso .EQ. 0 ) THEN |
---|
610 | eflux(i,id_ISOP) = 0. |
---|
611 | ELSE |
---|
612 | eflux_notfromveg(i,id_Orch_iso) = 0. |
---|
613 | ENDIF |
---|
614 | ELSE |
---|
615 | factor = loc_angle(i) - iso_on |
---|
616 | IF (factor <= 0.) THEN |
---|
617 | factor = factor + 2.*pi |
---|
618 | ENDIF |
---|
619 | factor = factor / (2.*iso_off + 1.e-6) |
---|
620 | IF (id_Orch_iso .EQ. 0) THEN |
---|
621 | eflux(i,id_ISOP) = eflux(i,id_ISOP) * 2. / iso_off & |
---|
622 | * pi * (SIN(pi*factor))**2 |
---|
623 | ELSE |
---|
624 | eflux_notfromveg(i,id_Orch_iso) = eflux_notfromveg(i,id_Orch_iso) * 2. / iso_off & |
---|
625 | * pi * (SIN(pi*factor))**2 |
---|
626 | ENDIF |
---|
627 | ENDIF |
---|
628 | ENDIF |
---|
629 | |
---|
630 | !-------------------------------------------------------- |
---|
631 | ! ... Adjust alpha-pinene for diurnal variation |
---|
632 | ! Modified by Gerd Folberth, LSCE, for LMDZ/INCA, 2001. |
---|
633 | !-------------------------------------------------------- |
---|
634 | IF ( .NOT. polar_night(i) .AND. .NOT. polar_day(i) ) THEN |
---|
635 | dayfrac = sunoff(i) / pi |
---|
636 | IF (id_Orch_apin .EQ. 0) THEN |
---|
637 | eflux(i,id_APIN) = eflux(i,id_APIN) / (0.7 + 0.3*dayfrac) |
---|
638 | ELSE |
---|
639 | eflux_notfromveg(i,id_Orch_apin) = eflux_notfromveg(i,id_Orch_apin) / (0.7 + 0.3*dayfrac) |
---|
640 | ENDIF |
---|
641 | IF ( (loc_angle(i) >= sunoff(i)) .AND. (loc_angle(i) <= sunon(i)) ) THEN |
---|
642 | IF (id_Orch_apin .EQ. 0) THEN |
---|
643 | eflux(i,id_APIN) = eflux(i,id_APIN) * 0.7 |
---|
644 | ELSE |
---|
645 | eflux_notfromveg(i,id_Orch_apin) = eflux_notfromveg(i,id_Orch_apin) * 0.7 |
---|
646 | ENDIF |
---|
647 | ENDIF |
---|
648 | ENDIF |
---|
649 | |
---|
650 | !-------------------------------------------------------- |
---|
651 | ! ... loop ends here |
---|
652 | ! Gerd Folberth, LSCE, for LMDZ/INCA, 2001. |
---|
653 | !-------------------------------------------------------- |
---|
654 | ENDDO |
---|
655 | |
---|
656 | |
---|
657 | !! finalisation des calculs de flux a partir des donnees de orchidee |
---|
658 | !! Isoprene |
---|
659 | IF (id_Orch_iso .NE. 0) THEN |
---|
660 | ! ponderation par les fractions de surface terre + changement d'unite --> kgC/m2/s en kg/m2/s |
---|
661 | eflux_veg(:,id_Orch_iso) = tot_emiflx_fromOrch(:,id_Orch_iso)* pctsrf(:,is_ter) * 68./60. |
---|
662 | ! calcul du flux |
---|
663 | eflux(:,id_ISOP) = eflux_veg(:,id_Orch_iso) + eflux_notfromveg(:,id_Orch_iso) |
---|
664 | ENDIF |
---|
665 | |
---|
666 | IF (id_Orch_apin .NE. 0) THEN |
---|
667 | ! ponderation par les fractions de surface terre + changement d'unite --> kgC/m2/s en kg/m2/s |
---|
668 | eflux_veg(:,id_Orch_apin) = tot_emiflx_fromOrch(:,id_Orch_apin) * pctsrf(:,is_ter) * 136./120. |
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669 | ! calcul du flux |
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670 | eflux(:,id_APIN) = eflux_veg(:,id_Orch_apin) + eflux_notfromveg(:,id_Orch_apin) |
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671 | ENDIF |
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672 | |
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673 | !! Methanol |
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674 | if (id_Orch_ch3oh .NE. 0) THEN |
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675 | ! ponderation par les fractions de surface terre + changement d'unite --> kgC/m2/s en kg/m2/s |
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676 | eflux_veg(:,id_Orch_ch3oh) = tot_emiflx_fromOrch(:,id_Orch_ch3oh) * pctsrf(:,is_ter) * 32/12 |
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677 | ! calcul du flux |
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678 | eflux(:,id_CH3OH) = eflux_veg(:,id_Orch_ch3oh) + eflux_notfromveg(:,id_Orch_ch3oh) |
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679 | ENDIF |
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680 | |
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681 | !! Acetone |
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682 | IF (id_Orch_ch3coch3 .NE. 0) THEN |
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683 | ! ponderation par les fractions de surface terre + changement d'unite --> kgC/m2/s en kg/m2/s |
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684 | eflux_veg(:,id_Orch_ch3coch3) = tot_emiflx_fromOrch(:,id_Orch_ch3coch3) * pctsrf(:,is_ter) * 58/36 |
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685 | ! calcul du flux |
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686 | eflux(:,id_CH3COCH3) = eflux_veg(:,id_Orch_ch3coch3) + eflux_notfromveg(:,id_Orch_ch3coch3) |
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687 | ENDIF |
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688 | |
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689 | !! Aldehydes |
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690 | if (id_Orch_formal .ne. 0)then |
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691 | ! ponderation par les fractions de surface terre + changement d'unite --> kgC/m2/s en kg/m2/s |
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692 | eflux_veg(:,id_Orch_formal) = tot_emiflx_fromOrch(:,id_Orch_formal) * pctsrf(:,is_ter) * 30/12 |
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693 | ! calcul du flux |
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694 | eflux(:,id_CH2O) = eflux_veg(:,id_Orch_formal) + eflux_notfromveg(:,id_Orch_formal) |
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695 | endif |
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696 | |
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697 | IF (id_Orch_acetal .NE. 0)THEN |
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698 | ! ponderation par les fractions de surface terre + changement d'unite --> kgC/m2/s en kg/m2/s |
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699 | eflux_veg(:, id_Orch_acetal) = tot_emiflx_fromOrch(:,id_Orch_acetal) * pctsrf(:,is_ter) * 44/24 |
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700 | ! calcul du flux |
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701 | eflux(:,id_CH3CHO) = eflux_veg(:,id_Orch_acetal) + eflux_notfromveg(:,id_Orch_acetal) |
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702 | ENDIF |
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703 | |
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704 | !! Acides carboxyliques |
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705 | IF ((id_Orch_acetic .NE. 0).AND.(id_Orch_formic .NE. 0)) THEN |
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706 | ! ponderation par les fractions de surface terre + changement d'unite --> kgC/m2/s en kg/m2/s |
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707 | ! =acide acetique+acide formique (HCOOH, converti en C acide acetique) d'ORCHIDEE |
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708 | eflux_veg(:,id_Orch_acetic) = (tot_emiflx_fromOrch(:,id_Orch_acetic)+tot_emiflx_fromOrch(:,id_Orch_formic)) * pctsrf(:,is_ter) * 60/24 |
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709 | ! calcul du flux |
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710 | eflux(:,id_CH3COOH) = eflux_veg(:,id_Orch_acetic) + eflux_notfromveg(:,id_Orch_acetic) |
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711 | ENDIF |
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712 | |
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713 | |
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714 | #endif |
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715 | |
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716 | |
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717 | #ifndef DUSS |
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718 | #ifdef AER |
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719 | |
---|
720 | CALL nightingale(u, v, paprs, pmid, & |
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721 | cdragh, cdragm, temp, sh, ftsol, ts, & |
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722 | pctsrf,econc_dms,eflux(:,id_DMS)) |
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723 | #endif |
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724 | #endif |
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725 | |
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726 | |
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727 | END SUBROUTINE MKSFLX_P2P |
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728 | |
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